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Protection Measures on Wind Turbines against
Lightning Strikes
S. Pastromas and E. Pyrgioti
2017/04/25
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Abstrac
The major renewable energy sources can be
considered wind, solar, hydro, biomass, geothermal and tidal. The adaptation
of more renewables in European Union (EU) lowers the dependence on fossil
fuels while energy production is getting more sustainable. Wind energy
is the significant contributor on achieving the committed EU 2020 goals
while the penetration of wind power plants follows an increasing trend
in annual basis. Wind turbines of power plants are usually installed on
high altitude areas where wind conditions have been proved that wind is
sufficient for such projects. The installation altitude usually exceeds
1000m causing these structures vulnerable to lightning strikes. The lightning
activity of an area has to be considered once a wind power plant is going
to be installed. Additionally a wind turbine has to be designed and manufactured
according to relevant IEC standards and special attention has to be given
to the components which are most vulnerable like the blades and the nacelle.
In the current paper will be discussed the effect and the potential disturbances
that a lightning strike can cause to a wind turbine and also basic protection
measures will be presented which allow the wind turbine to be effectively
protected against lightning strikes.
| Published in: Renewable Energy
& Power Quality Journal (RE&PQJ, Nº. 15) |
| Pages: 388-393 |
Date of Publication: 2017/04/25 |
| ISSN: 2172-038X |
Date of Current Version: |
| REF: 329-17 |
Issue Date: April 2017 |
| DOI:10.24084/repqj15.329 |
Publisher: EA4EPQ |
Authors and affiliations
S. Pastromas and E. Pyrgioti
Department of Electrical & Computer Engineering. High Voltage Laboratory,
University of Patras. (Greece)
Key word
Blade, grounding, lightning, LPZ, receptors, tip conductive
area.
References
[1] Hellinic National Meteorological Service of Greece,
"Isoceraunic map of Greece", Athens-France.
[2] IEC 62305-4 Ed. 1.0: Protection against lightning Part 4: Electrical
and electronic systems within structures.
[3] IEC/TR 61400-24:2010 Ed.1.0. Wind turbines - Part24: Lightning protection.
[4] International Civil Aviation Organization, Aeronautical information
services, Annex 15, July 2004.
[5] François Grange, Sébastien Journet, Rouzbeh Moini, Farid
Paul Dawalibi, Safety of Wind Farm Grounding Systems under Fault
, ICLP2016, Estoril, Portugal, 2016.
[6] IEC 62305-1 Ed. 1.0: Protection against lightning Part 1: General
principles.
[7] IEC 62305-3 Ed. 1.0: Protection against lightning Part 3: Physical
damage to structures and life hazard.
[8] A. Wada et.al., 2004, An Experimental Study on Discharge Characteristics
of Non-metallic Materials - Fundamental Discharge Characteristics of Model
Wind Turbine Blades, CRIEPI Report T03026 (in Japanese).
[9] Greek Standardization Organization (ELOT) Standard 1197/2002: Protection
of structures against lightnings General principles.
[10] Sokratis Pastromas, Ioannis Naxakis, Eleftheria Pyrgioti, Typical
Lightning Protection System for Wind turbines, DEMSEE'16 11th International
Conference on Deregulated Electricity Market Issues in South Eastern Europe,
22-23 September 2016, Heraklion, Crete, Greece.
[11] Sokratis Pastromas, Charalambos Nikolakopoulos, Georgios Peppas,
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connection between wind turbines, REDEC 2014, 2nd International
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[12] S.Pastromas, E. Pyrgioti, "Two types of earthing system of Lightning
Protection for Wind Turbines, ICLP2008, pp. 192, Uppsala, Sweden,
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[13] Maria Vomvila, Transient performance of wind turbine grounding
system, Diploma thesis, High Voltage laboratory, University of Patras,
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[14] T.Burton et al., Wind Energy Handbook, Wiley, 2001.
[15] W. Shepherd, D.W. Shepherd, Energy Studies, Imperial College, England.
[16] S.Pastromas, E. Pyrgioti, "An Application of an Integrated Lightning
Protection System for Windmills" ICLP2008, pp. 196, Uppsala, Sweden,
2008.
[17] T. Shindo et al, "A Study of Lightning Striking Characteristics
to Wind Turbines," ICLP2008, pp. 315-320, Uppsala, Sweden, 2008.
[18] D. Agoris et al., Analysis of lightning incidents on wind turbines
in Greece, ICLP2006, Cracow, Polland, 2002.
[19] J. Montanya et al., Protection of large wind turbine blades
against lighnting, ICLP2008, pp. 191, Uppsala, Sweden, 2008.

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